Atomic force microscopy (AFM) has become a powerful addition to the range of instruments available to probe the organization of lipid monolayers and bilayers. Currently, AFM is the only tool that can provide nanoscale topographic images of supported lipid membranes under physiological conditions, enabling researchers to resolve their detailed structure and to monitor their interaction with drugs, peptides and proteins. Here, we survey recent data obtained by our research groups that demonstrate the power of the technique for exploring peptide–membrane interactions, with an emphasis on microbial lipopeptides and on tilted peptides
The current view of the biological membrane is that in which lipids and proteins mutually interact t...
The current view of the biological membrane is that in which lipids and proteins mutually interact t...
The behaviour of biological components in cellular membranes is vital to the function of cells howev...
Atomic force microscopy (AFM) has become a powerful addition to the range of instruments available t...
In recent years, considerable attention has focused upon the biological applications of the atomic f...
Antimicrobial peptides (AMPs) and lipopeptides (LPs) represent very promising molecules to fight res...
Antimicrobial peptides (AMPs) and lipopeptides (LPs) represent very promising molecules to fight res...
Biological membranes are highly complex molecular systems, with a backbone that consist of a variety...
Biological membranes are highly complex molecular systems, with a backbone that consist of a variety...
Despite the vast body of literature that has accumulated on tilted peptides in the past decad...
Understanding the mechanisms by which proteins act on membrane surfaces is fundamental if we are to ...
AbstractWe review structure and dynamic measurements of biomembranes by atomic force microscopy (AFM...
Recent advances in biomolecular design require accurate measurements performed in native or near-nat...
Atomic force microscopy is an increasingly attractive tool to study how peptides disrupt membranes. ...
Antimicrobial peptides (AMPs) interact with bacterial cell membranes through a variety of mechanisms...
The current view of the biological membrane is that in which lipids and proteins mutually interact t...
The current view of the biological membrane is that in which lipids and proteins mutually interact t...
The behaviour of biological components in cellular membranes is vital to the function of cells howev...
Atomic force microscopy (AFM) has become a powerful addition to the range of instruments available t...
In recent years, considerable attention has focused upon the biological applications of the atomic f...
Antimicrobial peptides (AMPs) and lipopeptides (LPs) represent very promising molecules to fight res...
Antimicrobial peptides (AMPs) and lipopeptides (LPs) represent very promising molecules to fight res...
Biological membranes are highly complex molecular systems, with a backbone that consist of a variety...
Biological membranes are highly complex molecular systems, with a backbone that consist of a variety...
Despite the vast body of literature that has accumulated on tilted peptides in the past decad...
Understanding the mechanisms by which proteins act on membrane surfaces is fundamental if we are to ...
AbstractWe review structure and dynamic measurements of biomembranes by atomic force microscopy (AFM...
Recent advances in biomolecular design require accurate measurements performed in native or near-nat...
Atomic force microscopy is an increasingly attractive tool to study how peptides disrupt membranes. ...
Antimicrobial peptides (AMPs) interact with bacterial cell membranes through a variety of mechanisms...
The current view of the biological membrane is that in which lipids and proteins mutually interact t...
The current view of the biological membrane is that in which lipids and proteins mutually interact t...
The behaviour of biological components in cellular membranes is vital to the function of cells howev...